Posts Tagged Motor training

[Abstract] Nerve Stimulation Enhances Task-Oriented Training in Chronic, Severe Motor Deficit After Stroke. A Randomized Trial

Abstract

Background and Purpose— A sensory-based intervention called peripheral nerve stimulation can enhance outcomes of motor training for stroke survivors with mild-to-moderate hemiparesis. Further research is needed to establish whether this paired intervention can have benefit in cases of severe impairment (almost no active movement).

Methods— Subjects with chronic, severe poststroke hemiparesis (n=36) were randomized to receive 10 daily sessions of either active or sham stimulation (2 hours) immediately preceding intensive task-oriented training (4 hours). Upper extremity movement function was assessed using Fugl–Meyer Assessment (primary outcome measure), Wolf Motor Function Test, and Action Research Arm Test at baseline, immediately post intervention and at 1-month follow-up.

Results— Statistically significant difference between groups favored the active stimulation group on Fugl–Meyer at postintervention (95% confidence interval [CI], 1.1–6.9; P =0.008) and 1-month follow-up (95% CI, 0.6–8.3; P =0.025), Wolf Motor Function Test at postintervention (95% CI, −0.21 to −0.02; P =0.020), and Action Research Arm Test at postintervention (95% CI, 0.8–7.3; P =0.015) and 1-month follow-up (95% CI, 0.6–8.4; P =0.025). Only the active stimulation condition was associated with (1) statistically significant within-group benefit on all outcomes at 1-month follow-up and (2) improvement exceeding minimal detectable change, as well as minimal clinically significant difference, on ≥1 outcomes at ≥1 time points after intervention.

Conclusions— After stroke, active peripheral nerve stimulation paired with intensive task–oriented training can effect significant improvement in severely impaired upper extremity movement function. Further confirmatory studies that consider a larger group, as well as longer follow-up, are needed.

Source: Nerve Stimulation Enhances Task-Oriented Training in Chronic, Severe Motor Deficit After Stroke | Stroke

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[Abstract] Plasticity and Reorganization in the Rehabilitation of Stroke. The Constraint-Induced Movement Therapy (CIMT) Example

Source: Plasticity and Reorganization in the Rehabilitation of Stroke: Plasticity and Reorganization in the Rehabilitation of Stroke: Zeitschrift für Psychologie: Vol 224, No 2

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[Abstract] Ipsilesional anodal tDCS enhances the functional benefits of rehabilitation in patients after stroke.

Stimulating motor recovery in stroke

Rehabilitation of movement after stroke requires repeated practice and involves learning and brain changes. In a new study, Allman et al. tested whether delivering brain stimulation during a 9-day course of hand and arm training improved movement in patients after stroke. The authors found greater improvements in movement in patients who received real compared to sham (placebo) brain stimulation. Better scores in patients who received real stimulation were still present 3 months after training ended. These findings suggest that brain stimulation could be added to rehabilitative training to improve outcomes in stroke patients.

Abstract

Anodal transcranial direct current stimulation (tDCS) can boost the effects of motor training and facilitate plasticity in the healthy human brain. Motor rehabilitation depends on learning and plasticity, and motor learning can occur after stroke.

We tested whether brain stimulation using anodal tDCS added to motor training could improve rehabilitation outcomes in patients after stroke. We performed a randomized, controlled trial in 24 patients at least 6 months after a first unilateral stroke not directly involving the primary motor cortex. Patients received either anodal tDCS (n = 11) or sham treatment (n = 13) paired with daily motor training for 9 days. We observed improvements that persisted for at least 3 months post-intervention after anodal tDCS compared to sham treatment on the Action Research Arm Test (ARAT) and Wolf Motor Function Test (WMFT) but not on the Upper Extremity Fugl-Meyer (UEFM) score.

Functional magnetic resonance imaging (MRI) showed increased activity during movement of the affected hand in the ipsilesional motor and premotor cortex in the anodal tDCS group compared to the sham treatment group. Structural MRI revealed intervention-related increases in gray matter volume in cortical areas, including ipsilesional motor and premotor cortex after anodal tDCS but not sham treatment. The addition of ipsilesional anodal tDCS to a 9-day motor training program improved long-term clinical outcomes relative to sham treatment in patients after stroke.

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[PATENT] MOTOR TRAINING WITH BRAIN PLASTICITY

A rehabilitation device, comprising a movement element capable of controlling at least one motion parameter of a portion of a patient; a brain monitor which generates a signal indicative of brain activity; and circuitry including a memory having stored therein rehabilitation information and which inter-relates said signal and movement of said movement element as part of a rehabilitation process which utilizes said rehabilitation information.

more —>  MOTOR TRAINING WITH BRAIN PLASTICITY – Motorika Limited.

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[ARTICLE] The application of virtual reality in neuro-rehabilitation: motor re-learning supported by innovative technologies – Full Text PDF

Abstract
The motor function impairment resulting from a stroke injury has a negative impact on autonomy, the activities of daily living thus the individuals affected by a stroke need long-term rehabilitation. Several studies have demonstrated that learning new
motor skills is important to induce neuroplasticity and functional recovery.

Innovative technologies used in rehabilitation allow one the possibility to enhance training throughout generated feedback. It seems advantageous to combine traditional motor rehabilitation with innovative technology in order to promote motor re-learning and skill re-acquisition by means of enhanced training.

An environment enriched by feedback involves multiple sensory modalities and could promote active patient participation. Exercises in a virtual environment contain elements necessary to maximize motor learning, such as repetitive and differentiated task practice and feedback on the performance and results. The recovery of the limbs motor function in post-stroke subjects is one of the main therapeutic aims for patients and physiotherapist alike.

Virtual reality as well as robotic devices allow one to provide specific treatment based on the reinforced feedback in a virtual environment (RFVE), artificially augmenting the sensory information coherent with the real-world objects and events. Motor training based on RFVE is emerging as an effective motor learning based techniques for the treatment of the extremities.

more –> Full Text PDF

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[ARTICLE] ReHoblet – A Home-Based Rehabilitation Game on the Tablet – Full Text PDF

Abstract. We present ReHoblet; a physical rehabilitation game on tablets, designed to be used in a residential setting. ReHoblet trains two gross motor movements of the upper limbs by lifting (up-down) and transporting (leftright) the tablet to control a simple platform game. By using its accelerometers and gyroscope, the tablet is capable of detecting movements made by the user and steer the interaction based on this data. A formative evaluation with five Multiple Sclerosis (MS) patients and their therapists showed high appreciation for ReHoblet. Patients stated they liked ReHoblet not only to improve their physical abilities, but to train on performing technology-related tasks. Based on the results, we reflect on tablet-based games in home-based rehabilitation…

–> Full Text PDF

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